May 30, 2024Journal of Energy StorageOpen Access

Non-dimensional numerical analysis of coupled Metal Hydride-Phase Change Material hydrogen storage system

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Optimized tank configurations accelerate charge and discharge speeds by up to 93%, greatly enhancing efficiency in coupled metal hydride and phase change material hydrogen storage.
Equivalent power increases by a factor of 4 during desorption under high thermal conductivities, while canister cycle time drops by 88% in improved storage configurations.
Mathematical model of cylindrical canister layouts evaluates non-dimensional parameters and establishes a critical state of charge threshold to optimize heat exchange.
Highlights how tailoring canister geometry and heat transfer enables rapid cycling, which may support the integration of metal hydride hydrogen storage into renewable energy grids.

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Implication

Numerical analysis demonstrates optimized tank layouts accelerate charge cycles by up to 93% in metal hydride canisters, indicating superior thermal management for green energy storage.

Cite This Study

Maggini et al. (2024) studied this question.

synapsesocial.com/papers/68e67960b6db643587603b44 https://doi.org/10.1016/j.est.2024.112230

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Implication

Numerical analysis demonstrates optimized tank layouts accelerate charge cycles by up to 93% in metal hydride canisters, indicating superior thermal management for green energy storage.

Non-dimensional numerical analysis of coupled Metal Hydride-Phase Change Material hydrogen storage system

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Discussion

Implication

Cite This Study

Non-dimensional numerical analysis of coupled Metal Hydride-Phase Change Material hydrogen storage system

Key Points

Discussion

Implication

Cite This Study

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